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Machine Learning Engineer Engineering Models


Job Location:

Chennai - India

Monthly Salary: Not provided by the employer
Posted: 12 September 2026 (2 days ago)
Application Deadline: 10 December 2026
Vacancies: 1 Vacancy

Job Summary

About The ePlane Company

The ePlane Company is at the forefront of Indias urban air mobility revolution. Incubated at IIT Madras we are a deep-tech startup dedicated to designing and building the worlds most compact electric flying taxi. Our mission is to make door-to-door flying a reality drastically reducing commute times and decongesting our cities for a cleaner greener future. Were a passionate team of engineers designers and visionaries working on cutting-edge technology and were looking for brilliant minds to help us take flight.





Chart the Course for the Future of Flight

This role builds Machine Learning tools to enable reduction of the engineering workforces burden by developing internal ML-based tools across the organisation. This person will develop research and deploy ML algorithms across different engineering disciplines with focus towards engineering simulation related tools and building surrogate model libraries.





Roles and Responsibilities
  • Conduct systematic data audits of existing simulation data including schema assessment volume cleanliness and gaps; define supplementary data generation requirements

  • Build and maintain data pipelines for model training validation and continuous retraining

  • Build multi-domain model pipelines that chain individual surrogate models without manual handoff

  • Develop training pipelines architecture and prototyping for ML algorithms

  • Work on productising research prototypes

  • Conduct experiments to benchmark new techniques and evaluate model behavior

  • Develop systematic evaluation methodology: test sets accuracy metrics citation quality scoring false positive/negative analysis

  • Deploy AI tools to engineering teams with structured pilots baseline measurement and documented adoption outcomes


Requirements
Required Qualifications
  • 3 years ML engineering with a focus on deep learning for scientific or engineering applications

  • Experience training regression/emulation models on physics or simulation data (surrogate modelling or reduced order modelling)

  • Strong ML stack: PyTorch or TensorFlow Pandas NumPy SciPy

  • Surrogate modeling via Neural Networks or Gaussian Processes for use as fast-running model proxies.

  • Proven understanding of fundamental data structures and the ability to apply them to solve complex problems.

  • Development experience with retrieval pipeline skills and relational databases




Preferred Qualifications
  • Understanding and deployment of Reinforcement Learning based tools

  • Understanding of mathematics particularly linear algebra and probability theory

  • Experience with physics-informed neural networks (PiNNs) or hybrid physics-ML models

  • Experience with multi-fidelity modelling or chained model pipelines

  • Modeling complex multi-physics systems of ODEs and DAEs

  • Gradient-based optimization

  • Automatic differentiation tools and development



Required Skills:

Required Qualifications 3 years ML engineering with a focus on deep learning for scientific or engineering applications Experience training regression/emulation models on physics or simulation data (surrogate modelling or reduced order modelling) Strong ML stack: PyTorch or TensorFlow Pandas NumPy SciPy Surrogate modeling via Neural Networks or Gaussian Processes for use as fast-running model proxies. Proven understanding of fundamental data structures and the ability to apply them to solve complex problems. Development experience with retrieval pipeline skills and relational databases Preferred Qualifications Understanding and deployment of Reinforcement Learning based tools Understanding of mathematics particularly linear algebra and probability theory Experience with physics-informed neural networks (PiNNs) or hybrid physics-ML models Experience with multi-fidelity modelling or chained model pipelines Modeling complex multi-physics systems of ODEs and DAEs Gradient-based optimization Automatic differentiation tools and development